An energy-saving integrated structure for a chemical fiber air-conditioning system

Abstract

The present invention belongs to the technical field of air conditioner energy conservation, and particularly relates to an energy-saving integrated structure for a chemical fiber air conditioner system. The present invention includes an air conditioner box body, in which a fresh air main machine and a fresh air filter are provided, and the positions of the fresh air main machine and the fresh air filter correspond to each other. During the use of the present invention, the fresh air main machine blows air, and the blown fresh air is filtered by the fresh air filter. During the operation of the fresh air main machine, the heat generated by the operation of the fresh air main machine, the compressor unit and the variable frequency motor enters the heat insulation fixed frame cover. The waste heat recovery heating component recovers and utilizes the heat generated by the operation, and the heat can be stored or introduced into the air conditioner box body, and cooperates with the fresh air main machine to provide heat for the blown fresh air to form warm air. Adopting an internal circulation form, on the one hand, there is no need to additionally set a fresh air heating device, and on the other hand, the heat dissipation problem of the fresh air unit can be solved, achieving the purpose of energy conservation and environmental protection, with high waste heat recovery efficiency and a compact and reasonable structure.

Description

Technical Field

[0001] The present invention belongs to the technical field of air-conditioning energy conservation, and relates to an energy-saving integrated structure for a chemical fiber air-conditioning system. Background Art

[0002] Due to the requirements of product processes, chemical fiber enterprises have constant temperature, constant humidity, constant air volume and constant pressure requirements for the cooling of workshops and spinning filaments. Therefore, the central air conditioners of chemical fiber enterprises are always on throughout the year. Generally, the air supply temperature of the air conditioner is required to be 24°C. Heating is required in winter, and a chiller needs to be turned on in summer, resulting in relatively high energy consumption. Especially in winter, when the outdoor air is cold, air-conditioning equipment manufacturers design to use electric heating for heating in winter. When the fresh air air-conditioning equipment in the production workshop of chemical fiber enterprises is operating, a large amount of heat is generated inside, and it is necessary to continuously cool it with cooling water or be equipped with heat dissipation equipment to dissipate heat from the unit. The heat generated by the unit is wasted without reason, and additional heating equipment needs to be configured when heating the fresh air of the fresh air equipment. The overall energy consumption of the whole machine is large, energy waste is much, it is not environmentally friendly, and the waste heat recovery efficiency is poor.

[0003] In order to overcome the deficiencies of the prior art, people have continuously explored and proposed various solutions. For example, a Chinese patent discloses a full-automatic switching energy-saving control system for a freezing station in a chemical fiber factory [Application No.: 201710919982.8], which includes multiple freezing station systems, a group control energy-saving full-automatic switching control system, multiple process air-conditioning units and multiple temperature and humidity sensors. The number of freezing station systems, process air-conditioning units and temperature and humidity sensors is the same. The temperature and humidity sensors are arranged on the process air-conditioning units to sense the temperature and humidity of the air supply and transmit the sensed data to the group control energy-saving full-automatic switching control system. The group control energy-saving full-automatic switching control system performs start-stop adjustment control on the equipment of the corresponding freezing station system according to the data of each temperature and humidity sensor. The freezing station system includes a cooling tower, a cooling water pump, a chiller and a chilled water pump connected in sequence. The chilled water pump is connected to the process air-conditioning unit. However, the heat generated by the unit in this solution is still wasted without reason, and additional heating equipment still needs to be configured when heating the fresh air of the fresh air equipment. There are defects such as large overall energy consumption of the whole machine, much energy waste, not environmentally friendly, and poor waste heat recovery efficiency. Summary of the Invention

[0004] The purpose of the present invention is to provide an energy-saving integrated structure for a chemical fiber air-conditioning system in view of the above problems.

[0005] To achieve the above purpose, the present invention adopts the following technical solutions:

[0006] An energy-saving integrated structure for a chemical fiber air-conditioning system, including an air-conditioning box body, in which a fresh air main unit and a fresh air filter are provided. The positions of the fresh air main unit and the fresh air filter correspond to each other. A compressor unit and a variable-frequency motor are provided on the side of the air-conditioning box body. The compressor unit and the variable-frequency motor are respectively connected to the fresh air main unit. An insulating fixed frame cover is provided on the side of the air-conditioning box body. A waste heat recovery heating component is provided between the insulating fixed frame cover and the air-conditioning box body. A connected type uniform heating component is also provided in the air-conditioning box body. The waste heat recovery heating component is connected and arranged with the connected type uniform heating component.

[0007] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, the waste heat recovery heating component includes a waste heat recovery pipe provided between the insulating fixed frame cover and the air-conditioning box body. A waste heat suction part is provided between the waste heat recovery pipe and the insulating fixed frame cover. A heat storage and heating part is provided between the waste heat recovery pipe and the air-conditioning box body. The heat storage and heating part is connected to the fresh air circulation chamber in the air-conditioning box body.

[0008] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, the heat storage and heating part includes a heat storage boiler provided between the waste heat recovery pipe and the air-conditioning box body. A dehumidification and heating connecting part is provided between the heat storage boiler and the air-conditioning box body. The dehumidification and heating connecting part is connected and arranged with the fresh air circulation chamber.

[0009] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, the dehumidification and heating connecting part includes a dehumidification panel and a heating pipe provided between the heat storage boiler and the air-conditioning box body. The dehumidification panel is connected and arranged with the fresh air circulation chamber.

[0010] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, the waste heat suction part includes a heat suction device provided between the waste heat recovery pipe and the insulating fixed frame cover. The heat suction device is connected to the waste heat recovery pipe.

[0011] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, a direct heating connecting part is also provided between the waste heat recovery pipe and the air-conditioning box body. The direct heating connecting part is arranged in a staggered manner with the heat storage boiler.

[0012] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, the direct heating connecting part includes a waste heat direct heating pipeline provided between the waste heat recovery pipe and the air-conditioning box body. A multi-stage filter is provided between the waste heat direct heating pipeline and the air-conditioning box body. An electromagnetic control valve is provided in the waste heat recovery pipe.

[0013] In the above-mentioned energy-saving integrated structure for a chemical fiber air-conditioning system, a diffusion and rectification plate is provided between the fresh air filter and the fresh air main unit. The diffusion and rectification plate is arranged opposite to the air outlet of the fresh air main unit.

[0014] In the above-mentioned energy-saving integrated structure of a chemical fiber air-conditioning system, the connected type uniform heating component includes a connected type heat supply pipe groove arranged in the air-conditioning box body. The waste heat direct-through heat supply pipeline and the heat supply pipe are respectively connected to the connected type heat supply pipe groove. A one-way valve is arranged in the connected type heat supply pipe groove. A top air distribution panel and an opposite side air distribution panel are arranged in the air-conditioning box body, and the top air distribution panel and the opposite side air distribution panel are respectively connected to the connected type heat supply pipe groove.

[0015] In the above-mentioned energy-saving integrated structure of a chemical fiber air-conditioning system, a fresh air unit sealing seat is arranged in the air-conditioning box body, and the fresh air unit sealing seat is connected to the air-conditioning box body through fastening bolts.

[0016] Compared with the existing technology, the advantages of the present invention are as follows:

[0017] 1. During the use of the present invention, the fresh air main unit blows air, and the blown fresh air is filtered through the fresh air filter. During the operation of the fresh air main unit, the heat generated by the operation of the fresh air main unit, the compressor unit and the variable frequency motor enters the heat insulation fixed frame cover. The waste heat recovery and heating component recovers and utilizes the heat generated during the operation, and the heat can be stored or introduced into the air-conditioning box body, cooperating with the fresh air main unit to provide heat for the blown fresh air to form warm air. Adopting the internal circulation form, on the one hand, there is no need to additionally set fresh air heating equipment, and on the other hand, the heat dissipation problem of the fresh air unit can be solved, achieving the purpose of energy conservation and environmental protection, with high waste heat recovery efficiency and a compact and reasonable structure.

[0018] 2. By setting the waste heat direct-through heat supply pipeline, the heat sucked into the waste heat recovery pipe can be directly introduced into the air-conditioning box body and filtered through a multi-stage filter, cooperating with the fresh air main unit to provide heat for the blown fresh air to form warm air. It is partitioned from the heat storage boiler. The direct-through heat supply connecting piece can directly use the heat generated by the operation of the fresh air unit for heating and heat supply, reducing heat loss, with a reasonable structure. The electromagnetic control valve can be switched according to the actual situation to form direct-through heat supply or heat storage heat supply.

[0019] 3. When heating the air-conditioning box body to form warm air, the heat enters the top air distribution panel and the opposite side air distribution panel through the connected type heat supply pipe groove. The air distribution openings are evenly distributed in the top air distribution panel and the opposite side air distribution panel, which can form uniform heating, and the formed warm air is also more uniform, with a compact and reasonable structure.

[0020] Other advantages, objectives and features of the present invention will be partially reflected by the following description and partially understood by those skilled in the art through the research and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic structural diagram of the present invention.

[0022] Figure 2 It is a connection schematic diagram of a connected type uniform heating component and a waste heat direct heating pipeline.

[0023] Figure 3 It is a connection schematic diagram of a connected type uniform heating component and a heating pipe.

[0024] In the figure: air-conditioning box body 1, fresh air main unit 2, fresh air filter 3, compressor unit 4, variable frequency motor 55, heat insulation fixed frame cover 5, waste heat recovery heating component 6, connected type uniform heating component 7, waste heat recovery pipe 8, waste heat suction part 9, heat storage heating part 10, heat storage boiler 11, dehumidification heating connection part 12, dehumidification panel 13, heat suction device 14, direct heating connection part 15, waste heat direct heating pipeline 16, multi-stage filter 17, electromagnetic control valve 18, diffusion rectifying plate 19, connected type heating pipe groove 20, check valve 21, top air distribution panel 22, opposite side air distribution panel 23, fresh air unit sealing seat 24. Specific implementation mode

[0025] The present invention will be further described below with reference to the accompanying drawings.

[0026] As Figures 1 - 3 shown, a fiber chemical air-conditioning system energy-saving integrated structure includes an air-conditioning box body 1, a fresh air main unit 2 and a fresh air filter 3 are arranged in the air-conditioning box body 1, the positions of the fresh air main unit 2 and the fresh air filter 3 correspond to each other, a compressor unit 4 and a variable frequency motor 55 are arranged on the side of the air-conditioning box body 1, the compressor unit 4 and the variable frequency motor 55 are respectively connected to the fresh air main unit 2, a heat insulation fixed frame cover 5 is arranged on the side of the air-conditioning box body 1, a waste heat recovery heating component 6 is arranged between the heat insulation fixed frame cover 5 and the air-conditioning box body 1, a connected type uniform heating component 7 is also arranged in the air-conditioning box body 1, and the waste heat recovery heating component 6 is connected and communicated with the connected type uniform heating component 7.

[0027] In this embodiment, during use, the fresh air main unit 2 blows air, and the blown fresh air is filtered by the fresh air filter 3. During the operation of the fresh air main unit 2, the heat generated by the operation of the fresh air main unit 2, the compressor unit 4 and the variable frequency motor 55 enters the heat insulation fixed frame cover 5, and the waste heat recovery heating component 6 recovers and utilizes the heat generated by the operation, and the heat can be stored or introduced into the air-conditioning box body 1, and cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air, adopting an internal circulation form. On the one hand, there is no need to additionally set a fresh air heating device, and on the other hand, the heat dissipation problem of the fresh air unit can also be solved, achieving the purpose of energy conservation and environmental protection, with high waste heat recovery efficiency and a compact and reasonable structure.

[0028] Combined with Figures 1 - 3As shown, the waste heat recovery and heating component 6 includes a waste heat recovery pipe 8 disposed between the heat insulation and fixing frame cover 5 and the air conditioner casing 1. A waste heat suction part 9 is provided between the waste heat recovery pipe 8 and the heat insulation and fixing frame cover 5, and a heat storage and heating part 10 is provided between the waste heat recovery pipe 8 and the air conditioner casing 1. The heat storage and heating part 10 is connected to the fresh air circulation chamber in the air conditioner casing 1.

[0029] Specifically, during the operation of the fresh air main unit 2, the heat generated by the operation of the fresh air main unit 2, the compressor unit 4, and the variable frequency motor 55 enters the heat insulation and fixing frame cover 5. The heat generated by the operation is sucked into the waste heat recovery pipe 8 through the waste heat suction part 9, and then the heat is transported to the heat storage and heating part 10 for recovery and utilization. The heat can be stored or introduced into the fresh air circulation chamber in the air conditioner casing 1, cooperating with the fresh air main unit 2 to provide heat for the blown fresh air, forming warm air. In the form of internal circulation, on the one hand, there is no need to additionally set up a fresh air heating device, and on the other hand, it can also solve the heat dissipation problem of the fresh air unit, achieving the purpose of energy conservation and environmental protection, with high waste heat recovery efficiency and a compact and reasonable structure.

[0030] Combined with Figure 1 、 Figure 3 As shown, the heat storage and heating part 10 includes a heat storage boiler 11 disposed between the waste heat recovery pipe 8 and the air conditioner casing 1. A dehumidification and heating connection part 12 is provided between the heat storage boiler 11 and the air conditioner casing 1, and the dehumidification and heating connection part 12 is connected and communicated with the fresh air circulation chamber.

[0031] In this embodiment, the heat generated by the operation is sucked into the waste heat recovery pipe 8 through the waste heat suction part 9, and then the heat is transported to the heat storage boiler 11 for recovery and utilization. The heat storage boiler 11 can store the heat or introduce it into the fresh air circulation chamber in the air conditioner casing 1. The dehumidification and heating connection part 12 can isolate and dehumidify the water vapor of the heat introduced into the fresh air circulation chamber, preventing water vapor from entering the air conditioner casing 1, and cooperating with the fresh air main unit 2 to provide heat for the blown fresh air, forming warm air.

[0032] The dehumidification and heating connection part 12 includes a dehumidification panel 13 and a heating pipe disposed between the heat storage boiler 11 and the air conditioner casing 1. The dehumidification panel 13 is connected and communicated with the fresh air circulation chamber.

[0033] In this embodiment, the heating pipe and the dehumidification panel 13 can isolate and dehumidify the water vapor of the heat introduced into the fresh air circulation chamber, preventing water vapor from entering the air conditioner casing 1, and cooperating with the fresh air main unit 2 to provide heat for the blown fresh air, forming warm air. Those skilled in the art should understand that the dehumidification panel 13 is a prior art for isolating water vapor, and its internal structure and working principle will not be elaborated further.

[0034] Combined with Figure 1As shown, the waste heat extraction part 9 includes a heat extractor 14 disposed between the waste heat recovery pipe 8 and the heat insulation fixing frame cover 5, and the heat extractor 14 is connected to the waste heat recovery pipe 8.

[0035] In this embodiment, the heat extractor 14 can extract the heat located within the heat insulation fixing frame cover 5 into the waste heat recovery pipe 8 for recovery and utilization.

[0036] A direct heating connection member 15 is further provided between the waste heat recovery pipe 8 and the air-conditioning box body 1, and the direct heating connection member 15 is arranged in an alternating manner with the heat storage boiler 11.

[0037] In this embodiment, the direct heating connection member 15 can directly introduce the heat extracted into the waste heat recovery pipe 8 into the air-conditioning box body 1, cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air, and is arranged in a partitioned manner with the heat storage boiler 11. The direct heating connection member 15 can directly use the heat generated by the operation of the fresh air unit for heating, reducing heat loss, with a reasonable structure and can be switched according to actual situations.

[0038] The direct heating connection member 15 includes a waste heat direct heating pipeline 16 disposed between the waste heat recovery pipe 8 and the air-conditioning box body 1. A multi-stage filter 17 is provided between the waste heat direct heating pipeline 16 and the air-conditioning box body 1, and an electromagnetic control valve 18 is provided in the waste heat recovery pipe 8.

[0039] In this embodiment, the waste heat direct heating pipeline 16 can directly introduce the heat extracted into the waste heat recovery pipe 8 into the air-conditioning box body 1 and filter it through the multi-stage filter 17, cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air, and is arranged in a partitioned manner with the heat storage boiler 11. The direct heating connection member 15 can directly use the heat generated by the operation of the fresh air unit for heating, reducing heat loss, with a reasonable structure, and can be switched according to actual situations through the electromagnetic control valve 18 to form direct heating or heat storage heating.

[0040] Combined with Figure 1 As shown, a diffusion and rectification plate 19 is provided between the fresh air filter 3 and the fresh air main unit 2, and the diffusion and rectification plate 19 is disposed opposite to the air outlet of the fresh air main unit 2.

[0041] In this embodiment, the diffusion and rectification plate 19 is used to diffuse and rectify the fresh air blown by the fresh air main unit 2.

[0042] Combined with Figure 2 、 Figure 3As shown, the connected uniform heating component 7 includes a connected heat supply pipe groove 20 arranged in the air conditioner cabinet 1. The waste heat direct heat supply pipeline 16 and the heat supply pipe are respectively connected to the connected heat supply pipe groove 20. A one-way valve 21 is arranged in the connected heat supply pipe groove 20. A top air distribution panel 22 and an opposite side air distribution panel 23 are arranged in the air conditioner cabinet 1, and the top air distribution panel 22 and the opposite side air distribution panel 23 are respectively connected to the connected heat supply pipe groove 20.

[0043] In this embodiment, when heating the inside of the air conditioner cabinet 1 to form warm air, the heat enters the top air distribution panel 22 and the opposite side air distribution panel 23 through the connected heat supply pipe groove 20. The top air distribution panel 22 and the opposite side air distribution panel 23 are evenly distributed with air distribution openings, which can form uniform heating, and the formed warm air is also more uniform, and the structure is compact and reasonable.

[0044] Combined Figure 1 As shown, a fresh air unit sealing seat 24 is arranged in the air conditioner cabinet 1, and the fresh air unit sealing seat 24 is connected to the air conditioner cabinet 1 through fastening bolts.

[0045] In this embodiment, the fresh air unit sealing seat 24 seals the gap between the fresh air main unit 2 and the air conditioner cabinet 1, reduces leakage and energy consumption. The fresh air unit sealing seat 24 is connected to the air conditioner cabinet 1 through fastening bolts, and the disassembly and assembly are simple and convenient, and the practicability is strong.

[0046] The working principle of the present invention is:

[0047] During use, the fresh air main unit 2 blows air, and the blown fresh air is filtered by the fresh air filter 3. During the operation of the fresh air main unit 2, the heat generated by the operation of the fresh air main unit 2, the compressor unit 4 and the variable frequency motor 55 enters the heat insulation fixed frame cover 5. The heat generated by the operation is sucked into the waste heat recovery pipe 8 through the heat suction device 14, and then the heat is transported to the heat storage and heat supply part 10 for recovery and utilization, and the heat can be stored or introduced into the fresh air circulation chamber in the air conditioner cabinet 1, and cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air. Adopting the internal circulation form, on the one hand, there is no need to additionally set up a fresh air heating device, and on the other hand, the heat dissipation problem of the fresh air unit can be solved, achieving the purpose of energy conservation and environmental protection, with high waste heat recovery efficiency and a compact and reasonable structure.

[0048] The heat generated by the operation is sucked into the waste heat recovery pipe 8 through the heat suction device 14, and then the heat is transported to the heat storage boiler 11 for recovery and utilization. The heat storage boiler 11 can store the heat or introduce it into the fresh air circulation chamber in the air conditioner cabinet 1. The dehumidification and heat supply connecting piece 12 can isolate and dehumidify the water vapor of the heat introduced into the fresh air circulation chamber to avoid water vapor entering the air conditioner cabinet 1, and cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air.

[0049] The heating pipe and the dehumidifying panel 13 can isolate and dehumidify the moisture in the heat introduced into the fresh air circulation chamber, preventing moisture from entering the air conditioner cabinet 1, and cooperate with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air.

[0050] The waste heat direct heating pipeline 16 can directly introduce the heat extracted into the waste heat recovery pipe 8 into the air conditioner cabinet 1, and filter it through the multi-stage filter 17. It cooperates with the fresh air main unit 2 to provide heat for the blown fresh air to form warm air. It is set separately from the heat storage boiler 11. The direct heating connecting piece 15 can directly use the heat generated by the operation of the fresh air unit for heating, reducing heat loss. The structure is reasonable. Through the electromagnetic control valve 18, it can be switched according to the actual situation to form direct heating or heat storage heating.

[0051] The diffusion and rectification plate 19 is used to diffuse and rectify the fresh air blown out by the fresh air main unit 2.

[0052] When heating the air conditioner cabinet 1 to form warm air, the heat enters the top air distribution panel 22 and the opposite air distribution panel 23 through the connected heating pipe groove 20. The top air distribution panel 22 and the opposite air distribution panel 23 are evenly distributed with air outlets, which can form uniform heating, and the formed warm air is also more uniform. The structure is compact and reasonable.

[0053] The fresh air unit sealing seat 24 seals the gap between the fresh air main unit 2 and the air conditioner cabinet 1, reducing leakage and energy consumption. The fresh air unit sealing seat 24 is connected to the air conditioner cabinet 1 through fastening bolts, and the disassembly and assembly are simple and convenient, with strong practicability.

[0054] The specific embodiments described herein are merely illustrative of the spirit of the present invention. Those skilled in the art of the present invention can make various modifications or supplements to the described specific embodiments or use similar methods to replace them, but will not deviate from the spirit of the present invention.

[0055] Although terms such as air-conditioning box body 1, fresh air main unit 2, fresh air filter 3, compressor unit 4, variable frequency motor 55, heat insulation fixed frame cover 5, waste heat recovery heating component 6, connected type uniform heating component 7, waste heat recovery pipe 8, waste heat suction part 9, heat storage heating part 10, heat storage boiler 11, dehumidification heating connection part 12, dehumidification panel 13, heat suction device 14, direct heating connection part 15, waste heat direct heating pipeline 16, multi-stage filter 17, electromagnetic control valve 18, diffusion rectifying plate 19, connected type heating pipe groove 20, check valve 21, top air distribution panel 22, opposite side air distribution panel 23, fresh air unit sealing seat 24 are used more frequently in this text, the possibility of using other terms is not excluded. The use of these terms is only for more convenient description and explanation of the essence of the present invention, and interpreting them as any additional limitation is contrary to the spirit of the present invention.

Claims

1. An energy-saving integrated structure for a chemical fiber air-conditioning system, comprising an air-conditioning box body (1). Characterized in that, A fresh air main unit (2) and a fresh air filter (3) are arranged inside the air-conditioning box body (1). The positions of the fresh air main unit (2) and the fresh air filter (3) correspond to each other. A compressor unit (4) and a variable-frequency motor (55) are arranged on the side of the air-conditioning box body (1). The compressor unit (4) and the variable-frequency motor (55) are respectively connected to the fresh air main unit (2). An insulating fixed frame cover (5) is arranged on the side of the air-conditioning box body (1). A waste heat recovery heating component (6) is arranged between the insulating fixed frame cover (5) and the air-conditioning box body (1). A connected and uniform heating component (7) is also arranged inside the air-conditioning box body (1). The waste heat recovery heating component (6) and the connected and uniform heating component (7) are connected and arranged in communication. The waste heat recovery heating component (6) includes a waste heat recovery pipe (8) arranged between the insulating fixed frame cover (5) and the air-conditioning box body (1). A waste heat suction part (9) is arranged between the waste heat recovery pipe (8) and the insulating fixed frame cover (5). A heat storage and heating part (10) is arranged between the waste heat recovery pipe (8) and the air-conditioning box body (1). The heat storage and heating part (10) is connected to the fresh air circulation chamber inside the air-conditioning box body (1). The heat storage and heating part (10) includes a heat storage boiler (11) arranged between the waste heat recovery pipe (8) and the air-conditioning box body (1). A dehumidification and heating connecting part (12) is arranged between the heat storage boiler (11) and the air-conditioning box body (1). The dehumidification and heating connecting part (12) is connected and arranged in communication with the fresh air circulation chamber.

2. An energy-saving integrated structure for a chemical fiber air-conditioning system according to claim 1, Characterized in that, The dehumidification and heating connecting part (12) includes a dehumidification panel (13) and a heating pipe arranged between the heat storage boiler (11) and the air-conditioning box body (1). The dehumidification panel (13) is connected and arranged in communication with the fresh air circulation chamber.

3. An energy-saving integrated structure for a chemical fiber air-conditioning system according to claim 2, Characterized in that, The waste heat suction part (9) includes a heat suction device (14) arranged between the waste heat recovery pipe (8) and the insulating fixed frame cover (5). The heat suction device (14) is connected to the waste heat recovery pipe (8).

4. An energy-saving integrated structure for a chemical fiber air-conditioning system according to claim 3, Characterized in that, A direct heating connecting part (15) is also arranged between the waste heat recovery pipe (8) and the air-conditioning box body (1). The direct heating connecting part (15) and the heat storage boiler (11) are arranged in a staggered manner.

5. An energy-saving integrated structure for a chemical fiber air-conditioning system according to claim 4, Characterized in that, The direct heating connecting part (15) includes a waste heat direct heating pipeline (16) arranged between the waste heat recovery pipe (8) and the air-conditioning box body (1). A multi-stage filter (17) is arranged between the waste heat direct heating pipeline (16) and the air-conditioning box body (1). An electromagnetic control valve (18) is arranged inside the waste heat recovery pipe (8).

6. An energy-saving integrated structure of a chemical fiber air conditioning system according to claim 5, characterized in that, a diffusion and rectification plate (19) is provided between the fresh air filter (3) and the fresh air main unit (2), and the diffusion and rectification plate (19) is arranged opposite to the air outlet of the fresh air main unit (2).

7. An energy-saving integrated structure of a chemical fiber air conditioning system according to claim 6, characterized in that, the connected type uniform heating component (7) includes a connected type heat supply pipe groove (20) arranged in the air conditioning box body (1), the waste heat direct-through heat supply pipeline (16) and the heat supply pipe are respectively connected with the connected type heat supply pipe groove (20), a one-way valve (21) is arranged in the connected type heat supply pipe groove (20), a top air distribution panel (22) and an opposite side air distribution panel (23) are arranged in the air conditioning box body (1), and the top air distribution panel (22) and the opposite side air distribution panel (23) are respectively connected with the connected type heat supply pipe groove (20).

8. An energy-saving integrated structure of a chemical fiber air conditioning system according to claim 7, characterized in that, a fresh air unit sealing seat (24) is arranged in the air conditioning box body (1), and the fresh air unit sealing seat (24) is connected with the air conditioning box body (1) through fastening bolts.

Images